用于同时生产增值化学品和纯氢的碱性电解电池中的甘油电重整-迷你综述

IF 2.9 Q2 ELECTROCHEMISTRY Electrochemical science advances Pub Date : 2022-02-06 DOI:10.1002/elsa.202100174
Nazym Tuleushova, Yaovi Holade, David Cornu, Sophie Tingry
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引用次数: 4

摘要

甘油是一种廉价、无毒、可再生的副产品,是世界各地生物柴油和肥皂生产商迅速扩张的产物。甘油电铸是一种将甘油氧化成对制药、化妆品、聚合物和食品工业有价值的化学物质的方法。在过去的几十年里,研究的技术之一是将甘油氧化与电解池(所谓的电解槽)中的纯氢生产结合起来,这种技术已经显示出比传统的水电解消耗更低的理论电量的优势。该装置的效率受电极材料的性质、结构和组成的影响。这篇小型综述涉及对甘油电氧化的理解,目前用于制备电极材料的纳米材料的简要现状,以及有关碱性条件下电解槽性能的一些结果,这些电解槽结合了增值化学品和氢的有效生产。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

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Glycerol electro-reforming in alkaline electrolysis cells for the simultaneous production of value-added chemicals and pure hydrogen – Mini-review

Glycerol is a cheap, non-toxic, and renewable by-product of the rapid expansion of biodiesel and soap producers around the world. Glycerol electroforming is a method of oxidizing glycerol into valuable chemicals of interest to the pharmaceutical, cosmetics, polymer, and food industries. One of the technologies that have been studied over the past decades is to couple glycerol oxidation with the production of pure hydrogen in an electrolysis cell (so-called electrolyzer), which has shown the advantage of consuming a much lower theoretical amount of electricity than conventional water electrolysis. The efficiency of this device is influenced by the nature, structure, and composition of the electrode material. This mini-review concerns the understanding of glycerol electro-oxidation, a brief state of the art of nanomaterials currently used to prepare electrode materials, and some results concerning the performance of electrolyzers in alkaline conditions that combine the efficient production of value-added chemicals and hydrogen.

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CiteScore
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